AI-Discovered Alternative State Representations in Physical Systems: A Methodological Control Case for SHRF/GASD

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Authors: Neil Clive Tuckwell
Cited by: 5

Abstract

This entry records and contextualizes claims that an AI system has “independently discovered alternate physics.” The underlying research demonstrates that machine-learning models can infer compact, predictive latent state representations directly from raw observational data (such as video of physical systems) without being supplied with canonical physical variables or equations.The result does not constitute the discovery of new physical laws. Instead, it shows that multiple, non-unique coordinate representations can describe the same underlying dynamical system with comparable predictive power. These representations may differ substantially from human-chosen variables while remaining mathematically valid.Within the SHRF/GASD framework, this example is retained as a methodological control case. It illustrates how changes in representational constraints can produce apparently novel descriptions without implying new physics, and it serves as a safeguard against over-interpreting AI-generated “anomalies” as physical law violations. Keywords SHRF, GASD, artificial intelligence, representation learning, latent variables, dynamical systems, methodological control, coordinate freedom, anomaly calibration, physics discovery tools

Fields of Study & Subjects

Model Reduction and Neural Networks Explainable Artificial Intelligence (XAI) Machine Learning in Materials Science

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
29 January 2026
Document type
Preprint